Status of the CompactLight Design Study

D’Auria, G.; Aicheler, Markus; Aksoy, Avni; Alesini, D.; Apsimon, R.; Arnesano, Jordan Matias; Bellaveglia, M.; Bernhard, Axel; Bosco, Fabio; Buonomo, B.; Calvi, M.; Cardelli, Fabio; Cortés, Hector Mauricio Castañeda; Castilla, Alejandro; Clarke, James; Croia, M.; Cross, Adrian W.; Dattoli, G.; Mitri, S. Di; Diomede, M.; Dowd, Rohan; Dunning, David; Fang, Wencheng; Faus‐Golfe, A.; Ferrario, M.; Ficcadenti, L.; Fuster, J.; Gallo, A.; Gazis, E. N.; Gazis, Nikolaos; Geometrante, Raffaella; Gethmann, Julian; Gimeno, B.; Giribono, Anna; Gonzalez-Iglesias, D.; Goryashko, Vitaliy; Han, Yanliang; Hoekstra, Ronnie; Jacewicz, M.; Janssen, Xander; Kokole, Mirko; Latina, A.; Liu, Xingguang; Luiten, Jom; Marcos, Jordi; Marín, Eduardo; Mostacci, A.; Mutsaers, P.H.A.; Horta, Raquel Muñoz; Nergiz, Zafer; Nguyen, F.; Nix, Laurence; Palumbo, L.; Pérez, Francis; Petralia, A.; Piersanti, L.; Priem, Johannes; Rochow, R.; Rossi, C.; Ruber, Roger; Schmidt, Thomas; Schulte, Daniel; Scifo, J.; Spataro, B.; Stapnes, S.; Stragier, X.F.D.; Tanke, E.; Taylor, G. N.; Thompson, Neil; Trachnas, Emmanuil; Vaccarezza, C.; Wu, Xiaowei; Wuensch, Walter; Zhang, Kai; Zhang, Liang; Zhu, Di

doi:10.18429/jacow-fel2019-thp078

Cited by 5 publications

(3 citation statements)

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“…X-band test stands and the CLEAR beam facility at CERN), remain a primary focus. More broadly, the use of the CLIC core technologiesprimarily X-band RF, associated components and nano-beams-in compact medical, industrial and research linacs has become an increasingly important development and test ground for CLIC, and is destined to grow further [15]. The adoption of CLIC technology for these applications is now providing a significant boost to CLIC related R&D, involving extensive and increasing collaborations with laboratories and universities using the technology, and an enlarging commercial supplier base.…”

Section: The Clic Programme 2021-2025mentioning

confidence: 99%

Linear Colliders

Stapnes

2023

Springer Proceedings in Physics

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This article summarizes the studies for implementation of the Linear Collider projects, CLIC (the Compact LInear Collider) and ILC (the International Linear Collider). The accelerators aim to collide electrons and positrons at 380 and 250 GeV respectively, and both can be extended in length and/or with improved technologies to multi-TeV energies. CLIC is studied for construction at CERN, while ILC is being studied for implementation in Japan. The technical status, expected performances, recent progress and implementation parameters, as schedules, power and costs, are presented. The summary focuses on the accelerator studies for the colliders, but the accelerator studies are accompanied by comprehensive physics and detector studies referred to in the text and references. The future programs including the work for sustainable implementations are briefly summarized at the end. Many of the linear collider studies are common for the two projects and are presented as such. The projects are both implementable at costs similar to LHC and power/energy consumption similar or less than LHC.

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Section: The Clic Programme 2021-2025mentioning

confidence: 99%

Linear Colliders

Stapnes

2023

Springer Proceedings in Physics

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“…The use of the CLIC technology -primarily X-band RF, associated components and nanobeams -in compact medical, industrial and research linacs has become an increasingly important development and test ground for CLIC, and is destined to grow further [700]. The adoption of CLIC technology for these applications is now providing a significant boost to CLIC, especially through an enlarging commercial supplier base.…”

Section: Future Programmementioning

confidence: 99%

The International Linear Collider (Report to Snowmass 2021)

Aryshev¹,

Behnke²,

Berggren³

et al. 2022

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The International Linear Collider (ILC) is on the table now as a new global energyfrontier accelerator laboratory taking data in the 2030's. The ILC addresses key questions for our current understanding of particle physics. It is based on a proven accelerator technology. Its experiments will challenge the Standard Model of particle physics and will provide a new window to look beyond it. This document brings the story of the ILC up to date, emphasizing its strong physics motivation, its readiness for construction, and the opportunity it presents to the US and the global particle physics community.

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“…Research and development work on short-period and high-field staggered-array high-temperature superconducting (HTS) bulk undulators [1,2] is ongoing in a European project for the construction of compact free electron lasers (FELs) [3,4]. This new technology utilizes a 10 T level superconducting solenoid magnet to realize field-cooling (FC) magnetization of a series of staggered-array ReBCO bulks at a temperature around 10 K. With this concept, a sinusoidal undulator field of amplitude 2 T with a period length of 10 mm along the central beam axis can be obtained [2,5].…”

Section: Introductionmentioning

confidence: 99%

Fast and efficient critical state modelling of field-cooled bulk high-temperature superconductors using a backward computation method

Zhang

Ainslie

Calvi

et al. 2020

Supercond. Sci. Technol.

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A backward computation method has been developed to accelerate modelling of the critical state magnetization current in a staggered-array bulk high-temperature superconducting (HTS) undulator. The key concept is as follows: (i) a large magnetization current is first generated on the surface of the HTS bulks after rapid field-cooling (FC) magnetization; (ii) the magnetization current then relaxes inwards step-by-step obeying the critical state model; (iii) after tens of backward iterations the magnetization current reaches a steady state. The simulation results show excellent agreement with the H -formulation method for both the electromagnetic and electromagnetic-mechanical coupled analyses, but with significantly faster computation speed. The simulation results using the backward computation method are further validated by the recent experimental results of a five-period Gd–Ba–Cu–O (GdBCO) bulk undulator. Solving the finite element analysis (FEA) model with 1.8 million degrees of freedom (DOFs), the backward computation method takes less than 1.4 h, an order of magnitude or higher faster than other state-of-the-art numerical methods. Finally, the models are used to investigate the influence of the mechanical stress on the distribution of the critical state magnetization current and the undulator field along the central axis.

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Status of the CompactLight Design Study

Cited by 5 publications

References 0 publications

Linear Colliders

Linear Colliders

The International Linear Collider (Report to Snowmass 2021)

Fast and efficient critical state modelling of field-cooled bulk high-temperature superconductors using a backward computation method

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